Relation between Field and Potential
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359558 A uniform electric field of magnitude \({325 {~V} / {m}}\) is directed in the negative \({y}\) direction in figure. The coordinates of point \({A}\) are \({(-0.2 {~m},-0.3 {~m})}\) and those of point \({B}\) are \({(0.4 {~m}, 0.5 {~m})}\). Calculate the potential difference \({V_{B}-V_{A}}\) along the path shown in the figure.
supporting img

1 \(80\,V\)
2 \(50\,V\)
3 \(260\,V\)
4 \(30\,V\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359559 In a certain region of space with volume \(0.2\;{m^3},\) the electric potential is found to be 5 \(V\) throughout The magnitude of electric field in this region is :

1 \(0.5\frac{N}{C}\)
2 \(1\frac{N}{C}\)
3 \(5\frac{N}{C}\)
4 \({\rm{zero}}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359560 Figure shows three points \(A\), \(B\) and \(C\) in a region of uniform electric field \(E\). The line \(AB\) is perpendicular and \(BC\) is parallel to the field lines. Then which of the following holds good? (\({V_A},{V_B}\,{\rm{and}}\,{V_C}\) represent the electric potential at points \(A\), \(B\) and \(C\) respectively)
supporting img

1 \({V_A} = {V_B}\, < \,{V_C}\)
2 \({V_A} > {V_B}\, = \,{V_C}\)
3 \({V_A} = {V_B}\, = \,{V_C}\)
4 \({V_A} = {V_B}\, > \,{V_C}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359561 Determine electric potential difference (in \(V\)) between points \(A\) and \(B\) in an uniform electric field \(\vec E = (2\hat i + 3\hat j + 4\hat k)N{C^{ - 1}}\) where \(\overrightarrow {{r_a}} = (\hat i - 2\hat j + \hat k)m\) and \(\overrightarrow {{r_b}} = (2\hat i + \hat j - 2\hat k)m\)

1 \( - 8\,V\)
2 \( - 2\,V\)
3 \( - 5\,V\)
4 \( - 4\,V\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359562 The variation of potential \(V\) with distance \(x\) from a fixed point charge is shown in figure. The electric field strength between \(x = 0.1\,m\) and 0.3 \(m\) is
supporting img

1 \( - 0.4V{m^{ - 1}}\)
2 \( + 10V{m^{ - 1}}\)
3 \( + 20V{m^{ - 1}}\)
4 \( + 0.4V{m^{ - 1}}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359558 A uniform electric field of magnitude \({325 {~V} / {m}}\) is directed in the negative \({y}\) direction in figure. The coordinates of point \({A}\) are \({(-0.2 {~m},-0.3 {~m})}\) and those of point \({B}\) are \({(0.4 {~m}, 0.5 {~m})}\). Calculate the potential difference \({V_{B}-V_{A}}\) along the path shown in the figure.
supporting img

1 \(80\,V\)
2 \(50\,V\)
3 \(260\,V\)
4 \(30\,V\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359559 In a certain region of space with volume \(0.2\;{m^3},\) the electric potential is found to be 5 \(V\) throughout The magnitude of electric field in this region is :

1 \(0.5\frac{N}{C}\)
2 \(1\frac{N}{C}\)
3 \(5\frac{N}{C}\)
4 \({\rm{zero}}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359560 Figure shows three points \(A\), \(B\) and \(C\) in a region of uniform electric field \(E\). The line \(AB\) is perpendicular and \(BC\) is parallel to the field lines. Then which of the following holds good? (\({V_A},{V_B}\,{\rm{and}}\,{V_C}\) represent the electric potential at points \(A\), \(B\) and \(C\) respectively)
supporting img

1 \({V_A} = {V_B}\, < \,{V_C}\)
2 \({V_A} > {V_B}\, = \,{V_C}\)
3 \({V_A} = {V_B}\, = \,{V_C}\)
4 \({V_A} = {V_B}\, > \,{V_C}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359561 Determine electric potential difference (in \(V\)) between points \(A\) and \(B\) in an uniform electric field \(\vec E = (2\hat i + 3\hat j + 4\hat k)N{C^{ - 1}}\) where \(\overrightarrow {{r_a}} = (\hat i - 2\hat j + \hat k)m\) and \(\overrightarrow {{r_b}} = (2\hat i + \hat j - 2\hat k)m\)

1 \( - 8\,V\)
2 \( - 2\,V\)
3 \( - 5\,V\)
4 \( - 4\,V\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359562 The variation of potential \(V\) with distance \(x\) from a fixed point charge is shown in figure. The electric field strength between \(x = 0.1\,m\) and 0.3 \(m\) is
supporting img

1 \( - 0.4V{m^{ - 1}}\)
2 \( + 10V{m^{ - 1}}\)
3 \( + 20V{m^{ - 1}}\)
4 \( + 0.4V{m^{ - 1}}\)
NEET Test Series from KOTA - 10 Papers In MS WORD WhatsApp Here
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359558 A uniform electric field of magnitude \({325 {~V} / {m}}\) is directed in the negative \({y}\) direction in figure. The coordinates of point \({A}\) are \({(-0.2 {~m},-0.3 {~m})}\) and those of point \({B}\) are \({(0.4 {~m}, 0.5 {~m})}\). Calculate the potential difference \({V_{B}-V_{A}}\) along the path shown in the figure.
supporting img

1 \(80\,V\)
2 \(50\,V\)
3 \(260\,V\)
4 \(30\,V\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359559 In a certain region of space with volume \(0.2\;{m^3},\) the electric potential is found to be 5 \(V\) throughout The magnitude of electric field in this region is :

1 \(0.5\frac{N}{C}\)
2 \(1\frac{N}{C}\)
3 \(5\frac{N}{C}\)
4 \({\rm{zero}}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359560 Figure shows three points \(A\), \(B\) and \(C\) in a region of uniform electric field \(E\). The line \(AB\) is perpendicular and \(BC\) is parallel to the field lines. Then which of the following holds good? (\({V_A},{V_B}\,{\rm{and}}\,{V_C}\) represent the electric potential at points \(A\), \(B\) and \(C\) respectively)
supporting img

1 \({V_A} = {V_B}\, < \,{V_C}\)
2 \({V_A} > {V_B}\, = \,{V_C}\)
3 \({V_A} = {V_B}\, = \,{V_C}\)
4 \({V_A} = {V_B}\, > \,{V_C}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359561 Determine electric potential difference (in \(V\)) between points \(A\) and \(B\) in an uniform electric field \(\vec E = (2\hat i + 3\hat j + 4\hat k)N{C^{ - 1}}\) where \(\overrightarrow {{r_a}} = (\hat i - 2\hat j + \hat k)m\) and \(\overrightarrow {{r_b}} = (2\hat i + \hat j - 2\hat k)m\)

1 \( - 8\,V\)
2 \( - 2\,V\)
3 \( - 5\,V\)
4 \( - 4\,V\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359562 The variation of potential \(V\) with distance \(x\) from a fixed point charge is shown in figure. The electric field strength between \(x = 0.1\,m\) and 0.3 \(m\) is
supporting img

1 \( - 0.4V{m^{ - 1}}\)
2 \( + 10V{m^{ - 1}}\)
3 \( + 20V{m^{ - 1}}\)
4 \( + 0.4V{m^{ - 1}}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359558 A uniform electric field of magnitude \({325 {~V} / {m}}\) is directed in the negative \({y}\) direction in figure. The coordinates of point \({A}\) are \({(-0.2 {~m},-0.3 {~m})}\) and those of point \({B}\) are \({(0.4 {~m}, 0.5 {~m})}\). Calculate the potential difference \({V_{B}-V_{A}}\) along the path shown in the figure.
supporting img

1 \(80\,V\)
2 \(50\,V\)
3 \(260\,V\)
4 \(30\,V\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359559 In a certain region of space with volume \(0.2\;{m^3},\) the electric potential is found to be 5 \(V\) throughout The magnitude of electric field in this region is :

1 \(0.5\frac{N}{C}\)
2 \(1\frac{N}{C}\)
3 \(5\frac{N}{C}\)
4 \({\rm{zero}}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359560 Figure shows three points \(A\), \(B\) and \(C\) in a region of uniform electric field \(E\). The line \(AB\) is perpendicular and \(BC\) is parallel to the field lines. Then which of the following holds good? (\({V_A},{V_B}\,{\rm{and}}\,{V_C}\) represent the electric potential at points \(A\), \(B\) and \(C\) respectively)
supporting img

1 \({V_A} = {V_B}\, < \,{V_C}\)
2 \({V_A} > {V_B}\, = \,{V_C}\)
3 \({V_A} = {V_B}\, = \,{V_C}\)
4 \({V_A} = {V_B}\, > \,{V_C}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359561 Determine electric potential difference (in \(V\)) between points \(A\) and \(B\) in an uniform electric field \(\vec E = (2\hat i + 3\hat j + 4\hat k)N{C^{ - 1}}\) where \(\overrightarrow {{r_a}} = (\hat i - 2\hat j + \hat k)m\) and \(\overrightarrow {{r_b}} = (2\hat i + \hat j - 2\hat k)m\)

1 \( - 8\,V\)
2 \( - 2\,V\)
3 \( - 5\,V\)
4 \( - 4\,V\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359562 The variation of potential \(V\) with distance \(x\) from a fixed point charge is shown in figure. The electric field strength between \(x = 0.1\,m\) and 0.3 \(m\) is
supporting img

1 \( - 0.4V{m^{ - 1}}\)
2 \( + 10V{m^{ - 1}}\)
3 \( + 20V{m^{ - 1}}\)
4 \( + 0.4V{m^{ - 1}}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359558 A uniform electric field of magnitude \({325 {~V} / {m}}\) is directed in the negative \({y}\) direction in figure. The coordinates of point \({A}\) are \({(-0.2 {~m},-0.3 {~m})}\) and those of point \({B}\) are \({(0.4 {~m}, 0.5 {~m})}\). Calculate the potential difference \({V_{B}-V_{A}}\) along the path shown in the figure.
supporting img

1 \(80\,V\)
2 \(50\,V\)
3 \(260\,V\)
4 \(30\,V\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359559 In a certain region of space with volume \(0.2\;{m^3},\) the electric potential is found to be 5 \(V\) throughout The magnitude of electric field in this region is :

1 \(0.5\frac{N}{C}\)
2 \(1\frac{N}{C}\)
3 \(5\frac{N}{C}\)
4 \({\rm{zero}}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359560 Figure shows three points \(A\), \(B\) and \(C\) in a region of uniform electric field \(E\). The line \(AB\) is perpendicular and \(BC\) is parallel to the field lines. Then which of the following holds good? (\({V_A},{V_B}\,{\rm{and}}\,{V_C}\) represent the electric potential at points \(A\), \(B\) and \(C\) respectively)
supporting img

1 \({V_A} = {V_B}\, < \,{V_C}\)
2 \({V_A} > {V_B}\, = \,{V_C}\)
3 \({V_A} = {V_B}\, = \,{V_C}\)
4 \({V_A} = {V_B}\, > \,{V_C}\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359561 Determine electric potential difference (in \(V\)) between points \(A\) and \(B\) in an uniform electric field \(\vec E = (2\hat i + 3\hat j + 4\hat k)N{C^{ - 1}}\) where \(\overrightarrow {{r_a}} = (\hat i - 2\hat j + \hat k)m\) and \(\overrightarrow {{r_b}} = (2\hat i + \hat j - 2\hat k)m\)

1 \( - 8\,V\)
2 \( - 2\,V\)
3 \( - 5\,V\)
4 \( - 4\,V\)
PHXII02:ELECTROSTATIC POTENTIAL AND CAPACITANCE

359562 The variation of potential \(V\) with distance \(x\) from a fixed point charge is shown in figure. The electric field strength between \(x = 0.1\,m\) and 0.3 \(m\) is
supporting img

1 \( - 0.4V{m^{ - 1}}\)
2 \( + 10V{m^{ - 1}}\)
3 \( + 20V{m^{ - 1}}\)
4 \( + 0.4V{m^{ - 1}}\)